In view of the current huge interest in renewable energy technology and their conversion requirements, power electronic converters are of outmost importance. In Wind, Solar and Fuel Cell technology, the raw voltage produced by them must be converted before they can be used in any practical applications.
This course focuses to familiarize the students with the utilization aspects of power engineering, more specifically the techniques of solid-state power conversions and their applications. To meet
industry requirement for power electronic engineers, adequate practical knowledge on power semiconductor devices, ac-dc, dc-dc, dc-ac converter topologies, their control techniques and typical applications in motor drives and other applications are emphasized.

Welcome to EAE&AT, it is a great opportunity to join our academy not only for building your future by gaining the scientific knowledge, but also to build balanced healthy social relations.

You will spend most of your day among your peers involving in social events, projects and other useful team work based activities.

In EAE&AT we are keen to build your personality regarding all the aspects since in real life scientific competency is not everything. You have to be able to work in a team and to be an active member. Consequently, you will become an active and successful leader.

Nowadays we are living in a world which depends on systems and every piece of information is represented by a signal. Engineers are dealing with systems and signals in all fields. The cutting edge technology is oriented to automation. Systems are controlled to behave autonomously with desired performance.

The importance of this course is to prepare the graduated engineers for what they are going to face in real life and give our students the advantage of getting familiar with modern technologies. 

The main topics of this course are:

• Obtaining Laplace transforms of different functions and inverse Laplace transforms using partial fractions.
• Using Matlab for obtaining partial fractions,  Laplace transforms, and inverse Laplace transform.
• Getting the transfer function of a system described by a differential equation using Laplace Transform, drawing Block diagrams, and block diagrams reduction.
• Getting the differential equation is of LTI systems, TF from the differential equations and using Simulink to solve differential equations.
• Demonstrating the transient response of the 1^st Order systems to unit impulse, unit step, and unit ramp input signals
• Understanding the relation between the responses of LTI systems to the three input signals (impulse, unit, ramp) signals.
• Demonstrating the transient response of the 2^nd Order systems to unit impulse, unit step, and unit ramp input signals
• PID
• Steady State Error
• Control system analysis and design using by the root locus method. 
• Control system analysis and design using by the frequency response method

Computer architecture - instructions and data types - data transfer – micro processing – control unit – control unit functions – arithmetic logic unit – instructions execution – memory systems – data and control paths – inputs/outputs – control signals – interrupt signals – programmable peripheral interface – bidirectional connections – programmable devices.

Welcome to EAE&AT, it is a great opportunity to join our academy not only for building your future by gaining the scientific knowledge, but also to build balanced healthy social relations.

You will spend most of your day among your peers involving in social events, projects and other useful team work based activities.

In EAE&AT we are keen to build your personality regarding all the aspects since in real life scientific competency is not everything. You have to be able to work in a team and to be an active member. Consequently, you will become an active and successful leader.

Nowadays we are living in a world which depends on systems and every piece of information is represented by a signal. Engineers are dealing with systems and signals in all fields. The cutting edge technology is oriented to automation. Systems are controlled to behave autonomously with desired performance.

The importance of this course is to prepare the graduated engineers for what they are going to face in real life and give our students the advantage of getting familiar with modern digital technologies.

The main topics of this course are:

• z transform of elementary functions.
• The important properties of z transform
• The inverse z transform.
• z transform method for solving difference equations.
• Impulse sampling and data hold
• Pulse Transfer functions
• Realization of Digital Controllers
• Stability analysis of closed loop systems in z plane
• Transient and steady state response analysis.
• Root Locus method
• Frequency response method

Thank you for joining MEC232.

This is an interactive course about the basic concepts of Systems Modeling, Simulation and their impact on all the human activities. First, the basic concepts of systems, dynamics, and system representation are introduced. Looking at many examples in Nature and human-made devices, we realize that the dynamic behavior of most systems can be studied by representing the system mathematically, building and running a model to predict the dynamic behavior. How to evaluate the dynamic behavior of a system and measure its performance will provide the tools to design new controlled systems fulfilling some requirements. By considering which are the benefits of the control and the challenges for the future will open the mind to tackle new applications and develop new scenarios from the micro-systems level to the common systems and the whole universe. An overview of the techniques available for a deeper introduction to the subject will be presented at the end.

 This course covers selected topics of  Solid waste management  , including sources and assembly of solid waste, methods of sorting  the waste ,final disposal of solid waste and hazardous waste.

In this course the students will learn the Introduction about chemical kinetics and Rate of reaction definition, Factors affecting on the rate of reaction, Arrhenius Equation and Effect of Temperature on Rate of Reactions, Rate law and first order of  reaction, Half life time, Rate of reaction for reversible first order reaction, Second order of reaction, Third order of reaction

Zero order reaction, N order reactions,Catalytic Reactions and Engineering principles of reactor design. 

Fundamental chemical concepts in organic chemistry.

Identify the physical and chemical properties of common functional groups. 

Understand the structure and function of carbohydrates, lipids, amino acids, proteins, nucleotides, and nucleic acids.

Organic chemistry I will cover the properties, reactions and mechanisms of alkanes, cycloalkanes, alkyl halides, alcohols, alkenes and alkynes.

This course is intended to provide a broad overview of polymer science and engineering

The course objectives of the course:

- Present a basic understanding of the structure of polymer including, molecular weight and molecular weight distribution

- Understand the different modes of polymerization, their characteristics, and the difference between them

- Understand other properties related to polymer such as glass transition, melting, dissolution,...etc, and the factors affecting them.

The aim of this course to study the organic reaction mechanism for the following process; nitration, sulfonation, halogenation and oxidation and production of intermediate organic compounds and also study the mechanism of polymerization in organic industrial process and flowchart and raw material to obtain the final product for the following explosives, sugar, starch, dyes, synthetic fibers and pesticides. 

The course will give an introductory treatment of the governing laws for heat transfer. The following topics are covered: Steady state heat transfer by conduction, fundamentals and engineering treatment of convection heat transfer, heat transfer with phase change (boiling/condensation), radiation heat transfer , types of heat exchanger and design of shell and tube heat exchangers. Both analytical and numerical solution methods are presented. fouling factor and pressure drop calculations

This course aims to establish fundamental knowledge in the area of reaction kinetics for the students in chemical engineering and pharmaceutical engineering. Chemical reactions occur in different phases including the gas phase, in solutions with different solvents, between interfaces including gas-solid and liquid-solid, and other interfaces in solid and liquid states. At the end of this course, students should be able to: (i) interpret and analyse chemical and biochemical reaction kinetics data; (ii) apply reaction kinetics principles in chemical and biochemical reaction engineering; (iii) identify and formulate problems in chemical and biochemical reaction engineering and find appropriate solutions; (iv) specify and size the most common industrial chemical and biochemical reactors to achieve production goals for processes involving homogeneous or heterogeneous reaction systems.